Bird decoy

A decoy, typically used for hunting fowl, having a hollow body including a head, a tail and a pair of feet. The decoy includes a pair of wings mounted to the body of the decoy for multi-axis movement. A drive mechanism typically including an electric motor and a power source is positioned within the hollow body. A pair of crank members connects to the electric motor and extends outwardly from the body. A pair of link members connect the wings to the crank members whereby rotation of the crank members enables cyclic movement defined by up/down and fore/aft motion of the wings.

Skip to: Description  ·  Claims  ·  References Cited  · Patent History  ·  Patent History
Description
CROSS-REFERENCE TO RELATED APPLICATIONS

This application is a continuation-in-part of U.S. application Ser. No. 12/056,552, filed on Mar. 27, 2008.

FEDERALLY SPONSORED RESEARCH OR DEVELOPMENT

Not Applicable.

REFERENCE TO SEQUENCE LISTING

Not Applicable.

BACKGROUND OF THE INVENTION

1. Field of the Invention

The present invention relates to bird decoys. More specifically, this invention is directed to a decoy having a movable wing.

2. Description of Related Art

Decoys have long been used by hunters for attracting game birds, in many instances migratory waterfowl such as ducks and geese. Typically, a decoy is made of a one-piece construction that either floats on a body of water or can be placed on land. Typically, a plurality of decoys is placed in an area proximate to a blind with the hope that the natural appearance of the decoys will attract live birds to join the group.

Decoys having movable wings or other movable appendages such as heads that turn or feet that move is also known. It is believed that decoys having movable appendages that emulate motions made by a live bird are more likely to attract live birds as they appear more natural. Therefore, a decoy should attempt to depict the movements of a live bird in a more realistic manner so as to attract rather than scare away live birds.

U.S. Pat. No. 4,128,958 to Snow discloses one type of decoy made to resemble a duck or a goose having movable wings controlled by strings or other flexible members. Pulling on the strings causes the wings to move in an up and down manner.

U.S. Pat. No. 4,896,448 to Jackson discloses another type of bird decoy having the wings attached to a flapping mechanism extending through slots formed in the body. The flapping mechanism includes a rotary drive wheel rotated by a motor. The rotary drive wheel is connected to a drive link that reciprocates along a slot wherein the drive link is connected to the wings.

U.S. Pat. No. 5,231,780 to Gazalski discloses a plastic shell game bird decoy having rod-like wing supports and a pivotal neck both of which can be actuated by an operation cord used to manually move the wings and rotate the neck.

U.S. Pat. No. 6,170,188 to Mathews discloses another type of bird decoy having wing members rotatably connected to the body of the decoy and using an electric motor to rotate the wing members in a circular manner.

U.S. Pat. No. 6,493,980 to Richardson et al. discloses a decoy having a drive motor for operating a pair of outwardly projecting revolving wings, wherein the wings rotate about their longitudinal axis.

One of the problems with bird decoys, as set forth above, is that the rotary or simple up-and-down motion do not necessarily create and maintain both a realistic appearance and realistic movement of a bird wing that accurately simulates that of a live bird. Enhancing the ability of a decoy by incorporating a wing movement in a lifelike manner helps to attract birds to the hunter. Accordingly, it can be appreciated that there is a need to provide a bird decoy having a wing that moves in a realistic manner and simulates the flight of a bird.

SUMMARY OF THE INVENTION

According to the preferred embodiment of the present invention there is provided a bird decoy having simulated wing movement. The wing is attached to the body of the decoy and is driven in a manner simulating the wings of a landing bird. The wing is secured to the body of the decoy in a manner enabling multi-axis movement of the wing. A drive system connected to the wing is operative to drive the wing in a multi-axis motion.

In one form of the invention, the mounting assembly includes a pivot pin having a longitudinal axis. The pivot pin is attached to the wing and coupled to the body, wherein the wing rotates about a longitudinal axis of the pivot pin and pivots about an axis skewed or oblique with respect to the longitudinal axis of the pivot pin. In one embodiment thereof, the pivot pin is disposed within an aperture of a bushing and a loop fastener, secured to the body of the decoy, surrounds the bushing to couple the pivot pin to the body. A further embodiment provides for attachment of the pivot pin to a wing mounting bracket mounted directly to the body such that the wings are quickly and easily removable from the body for transportation and storage of the bird decoy.

The drive system includes a motor with a drive shaft, a crank member connected to the motor's drive shaft and a link connected to both the wing and the crank member. Thus, as the motor rotates the crank member, the crank member drives the link to impart motion to the wing attached to the link.

Accordingly, it is an object of the present invention to provide a decoy that simulates a landing bird wherein the wings move in a multi-axis manner. In one embodiment, the wings move both up and down and back and forth. Depending upon the drive system and the mounting assembly, the wings can move through a complex degree of motion.

These objects and other features, aspects and advantages of this invention will be more apparent after a reading of the following detailed description, appended claims and accompanying drawings.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a front perspective view of a decoy according to the present invention;

FIG. 2 is a rear perspective view of the decoy according to the present invention illustrated in FIG. 1;

FIG. 3 is a top view of the decoy according to the present invention illustrated in FIG. 1;

FIG. 4 is an exploded view of one embodiment of a mounting assembly used to attach a wing to the body of the decoy according to the present invention illustrated in FIG. 1;

FIG. 5 is a rear view of the decoy according to the present invention illustrated in FIG. 1;

FIGS. 6-9 are partial side views of the decoy according to the present invention illustrated in FIG. 1 showing various positions and movement of the wing;

FIG. 10 is a rear perspective view of an alternate embodiment of the decoy according to the present invention;

FIG. 11 is a top view of the alternate embodiment of the decoy as illustrated in FIG. 10;

FIG. 12 is a rear view of the alternate embodiment of the decoy as illustrated in FIG. 10;

FIG. 13 is a side view of the alternate embodiment of the decoy as illustrated in FIG. 10;

FIG. 14 is a rear perspective view of an alternate embodiment of the bird decoy according to the present invention;

FIG. 15 is a top perspective view of the wing mounting bracket of the bird decoy illustrated in FIG. 14;

FIG. 16 is a rear perspective view of the alternate embodiment of the bird decoy illustrating the first step in removing the wings from the bird decoy body;

FIG. 16A is a rear perspective view of the elements in Circle 16A shown in greater detail and the drive link 86 removed from the drive axels 78;

FIG. 17 is a rear perspective view of the alternate embodiment of the bird decoy with the elements in Circle B shown in greater detail to illustrate the next step in the removal of the wings from the bird decoy body;

FIG. 17A is a rear perspective view of the elements in Circle 17A shown in greater detail and the position of the wing before it is removed from the wing mounting bracket; and

FIG. 18 is a rear perspective view of the alternate embodiment of the bird decoy with one of the wings removed from the wing mounting bracket.

 DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

Turning now to FIGS. 1-2, there is shown a bird decoy seen generally at 10 according to a first embodiment of the present invention. The bird decoy 10 includes a body 12 having a head 14, a tail 16 and a pair of feet 18, with the body 12 extending along a longitudinal axis from the head 14 to the tail 16. A post 20 extends outwardly from the body 12 and engages a support stand or pole 22 used to support the body 12, typically above a body of water. The body 12 is typically formed of plastic or fiberglass with a hollow shell interior. A cover or hatch 24 allows access to the interior of the body 12. In the present embodiment, the body 12 of the bird decoy 10 is configured in a lifelike manner to illustrate or simulate a game bird, such as a duck, about to land on a water surface.

A pair of movable wings 26, 28 extend or project outwardly from the body 12. A mounting assembly, seen generally at 30, secures the pair of movable wings 26, 28 to the body 12 whereby they may move or flap in a manner simulating a bird, such as a duck, during landing. The mounting assembly 30 is such that it allows the pair of movable wings 26, 28 to have multi-axis movement; i.e., the pair of movable wings 26, 28 move in more than one direction. An example of such movement is illustrated in

FIGS. 6-9 wherein the pair of movable wings 26, 28 move both up and down and forward and rearward with respect to the body 12. The pair of movable wings 26, 28 are substantially identically shaped mirror images defining a left and a right, and are colored or patterned based upon the particular type of bird being hunted. As illustrated in FIG. 2, the wing 26 has a longitudinal axis 26a extending from the inner end 46 of the wing 26 to tip 47 of the wing 26. The wing 26 also has a lateral axis 26b extending from the front or leading edge 49 of the wing 26 to the rear or trailing edge 51 of the wing 26. The pair of movable wings 26, 28 are typically made of a resilient material such as a plastic as the wing body is subjected to torque during operation of the bird decoy 10. FIG. 4 illustrates a preferred embodiment wherein the pair of movable wings 26, 28 are made of a corrugated plastic material formed of upper 32 and lower 34 thin wall plastic sheets interconnected by a plurality of rib members 36. The upper 32 and lower 34 thin wall plastic sheets and adjacent opposing rib members 36 form a plurality of channels or passageways 38 extending through the pair of movable wings 26, 28. Forming the pair of movable wings 26, 28 of such a corrugated plastic material results in a lightweight, strong, and resilient pair of movable wings 26, 28 that can be shaped to simulate the wing of a bird.

FIGS. 3-5 illustrate one embodiment of a mounting assembly 30 used to attach the pair of movable wings 26, 28 to the body 12 of the bird decoy 10. The mounting assembly 30 includes a tie strap 40 attached to the body 12 by a pair of threaded fasteners or screws 42. The tie strap 40 has apertures 44 located at each end. The inner end 46 of the wing 26 has a notch 48 sized to receive a bushing 50 having flange portions 52, 54 at each end thereof. The bushing 50 has an aperture or throughbore 56 extending between the flange portions 52, 54. A pivot pin 58 extends through one of the plurality channels or passageways 38 on one side of the notch 48 through the aperture 56 of the bushing 50 and into a corresponding channel or passageway 38 on the opposite side of the notch 48 to couple the bushing 50 to the wing 26. The pivot pin 58 is of a diameter such that it fractionally fits within the passageway 38. The diameter of the aperture 56 in the bushing 50 is slightly greater than the diameter of the pivot pin 58 whereby the bushing 50 rotates about the longitudinal axis 60 of the pivot pin 58 and also oscillates or pivots on the pivot pin 58 in a plane containing the longitudinal axis 60 of the pivot pin 58.

A fastener member, one example of which being a loop fastener or clip 62, has a mounting portion that surrounds the bushing 50 between the flange portions 52, 54. An attachment portion of the fastener member is used to secure the fastener member to the body 12 of the bird decoy 10. The loop fastener 62 has an attachment portion that contains an aperture 64 through which a fastener 66 extends to secure the loop fastener 62 and correspondingly, the wing 26 to the body 12 of the bird decoy 10. As illustrated, the fastener 66 extends through the aperture 64 and into the aperture 44 located in the tie strap 40. Accordingly, the present invention provides for a loose fit or gap between the components of the mounting assembly 30 that enables multi-axis movement of the wing 26 whereby the wing 26 moves in both an up and down manner and also rocks back and forth, that is, it extends forward and rearward with respect to the body 12 of the bird decoy 10.

As illustrated in FIGS. 5-9, the bird decoy 10 contains a drive system, seen generally at 68, used to drive the pair of movable wings 26, 28 in a flapping manner to simulate a flying or landing bird. The drive system 68 generally includes a power source or battery 70, typically a battery disposed within the hollow shell of the body 12. An electric motor 72 receives power from the battery 70. Upon actuation of a switch 74 connected to the battery 70, power from the battery 70 energizes the electric motor 72 thereby driving the axles 78. A connector 80 connects a crank member 82 on one end thereof to each of the drive axles 78. Any convenient fastener (not shown) may be used to secure the connector 80 to the crank member 82. A flexible, yet resilient sleeve 84 is attached to the opposite end of each of the crank members 82.

A drive link 86 having a plate member 88 connected on one end thereof attaches to the under surface 90 of each of the pair of movable wings 26, 28, as shown in FIG. 5, such that the plate member 88 engages the under surface 90 of each of the pair of movable wings 26, 28, for example at the midpoint between the ends of the pair of movable wings 26, 28. An annular member 92 attached to the opposite end of the drive link 86 houses a spherical bearing 94. The flexible sleeve 84 is journaled in the spherical bearing 94. As with the mounting assembly 30, the flexible sleeve 84 fits loosely in the spherical bearing 94, shown in FIGS. 6-9, to allow the spherical bearing 94 to move or slide as necessary with respect to the annular member 92 which houses the spherical bearing 94. In addition, the flexible sleeve 84 has a certain degree of resiliency whereby it flexes as the pair of wings 26, 28 move.

Turning now to FIGS. 6-9 for purposes of illustration, there is shown only one wing 26 recognizing that both pair of movable wings 26, 28 together experience the motion generated by the movement of the drive axles 78 and connectors 80. The wing 26 is shown in various stages of motion as the left drive axle 78 and connector 80 (as viewed from the front to the rear end of the bird decoy) rotates in the direction shown by the arrow 96. Starting with FIG. 6, the left drive axle 78 and connector 80 are located such that the crank throw 82a of the crank member 82 is in the lowest vertical position. As the left drive axle 78 and connector 80 rotates in a clockwise direction, as illustrated by the arrow 96, and the wing 26 moves from the position illustrated in FIG. 6 to that shown in FIG. 7. The crank member 82 acting upon the drive link 86 lifts the wing 26 upward in the direction illustrated by the arrow 98, which also causes the wing 26 to move in the forward direction illustrated by the arrow 100 in FIG. 6. Upon reaching the position illustrated by FIG. 7, the wing 26 is placed in the fully forward position and is at the midpoint of its up and down stroke. Continued rotation of the left drive axle 78 and connector 80 in the direction of the arrow 96 causes the wing 26 to move from the position illustrated in FIG. 7 to that shown in FIG. 8. During the transition from the position illustrated in FIG. 7 to that shown in FIG. 8, the wing 26 continues its upward motion, however, the wing 26 now moves in the rearward direction illustrated by the arrow 100. Thus, in FIG. 8, the wing 26 is placed in its fully up position and is located at the midpoint of its forward and back position. As the left drive axle 78 and connector 80 continues to rotate, and the wing 26 moves from the position illustrated in FIG. 8 to that shown in FIG. 9, the wing 26 continues its rearward motion as illustrated by the arrow 100 in FIG. 8. However, the wing 26 now moves downward in the direction illustrated by the arrow 98. Thus in FIG. 9, the wing 26 is at its fully rearward position and the midpoint of its up and down stroke. Finally, continued rotation of the left drive axle 78 and connector 80 in the direction of the arrow 96 moves the wing 26 from the position shown in FIG. 9 to that shown in FIG. 6 and completes one rotation of the left drive axle 78 and connector 80. As the wing 26 moves from the position illustrated in FIG. 9 to that shown in FIG. 6, the wing 26 continues its downward motion as illustrated by the arrow 98 in FIG. 9, however, the wing 26 moves in the forward direction as illustrated by the arrow 100 in FIG. 6. Upon reaching the position illustrated in FIG. 6, the wing 26 returns to its lowest and midpoint position. Accordingly, it should be understood that for each rotation of the left drive axle 78 and connector 80, the crank member 82 causes the wing 26 to move in both an up and down manner and a forward and rearward manner as illustrated by the arrows 98, 100 in FIGS. 6-9.

FIGS. 10-13 show an additional embodiment of the present invention, with like parts having like reference numbers, wherein the mounting assembly 30 includes a plurality of notches 110 located in each wing 26, 28 with a pivot pin 112 extending across or spanning the notches 110 and connected to the pair of movable wings 26, 28. A pair of loop fasteners 114 is used in combination with fasteners 116 to attach the pair of movable wings 26, 28 to the body 12 of the bird decoy 10. Once again, the pair of loop fasteners 114 are sized whereby the pivot pin 112 fits loosely thereby allowing a certain amount of play and enabling the pair of movable wings 26, 28 to pivot or move about the mounting assembly 30. As illustrated in FIG. 12, the link member 118 is pivotably connected to a pin 120 attached to the under surface 90 of each wing 26, 28 by a bracket 124. The opposite end of the link member 118 has an annular member 122 that houses a spherical bearing 94 that fits over the flexible sleeve 84 coupled to the crank member 82. As with the previous embodiment, the annular member 122 fits loosely over the spherical bearing 94 which is held by the flexible sleeve 84 to allow movement thereof along the flexible sleeve 84 as the crank member 82 rotates about the longitudinal axis of the drive axles 78.

FIGS. 14-18 illustrate an alternate embodiment of the present invention, with like parts having like reference numbers, wherein the mounting assembly 30 includes a centrally mounted wing mounting bracket 210 directly attached to the body 12 of the bird decoy 10 with two mounting screws (not shown) mounted in two mounting holes 212. The centrally mounted wing mounting bracket 210, as clearly illustrated in detail in FIG. 15 has an approximate oval shape 214 with opposing cut-away portions 216, 218 in the longitudinal side of the oval shape 214. The centrally mounted wing mounting bracket 210 also has two through-holes 220, 222 drilled approximately parallel and equally spaced along either side of the central longitudinal axis of the centrally mounted wing mounting bracket 210. Each through-hole 220, 222 extends from one end 224 to the opposite end 225 of the centrally mounted wing mounting bracket 210 so as to intercept the cut-away portions 216, 218 along each side of the longitudinal direction of the mounting bracket 210. Further, at the one end 224 of the centrally mounted wing mounting bracket 210, a linear slot 240, 242 is machined through the top of the centrally mounted wing mounting bracket 210 so as to create an opening 244 from the top of the centrally mounted wing mounting bracket 210 to each of the through-holes 220, 222 to provide an access to the cut-away portion 216, 218 on either side of the longitudinal axis of the centrally mounted wing mounting bracket 210 to enable the assembly of each wing 26, 28 to the body 12 of the bird decoy 10 which will now be discussed. The centrally mounted wing mounting bracket 210 can be made of any lightweight material and preferably of a structural plastic.

As illustrated in FIGS. 16, 16A, 17, and 17A each wing 26, 28 is provided with a wing link member 234 which consists of a T-bracket having a bushing 236 at one end pivotally attached to the undersurface of each wing member 26, 28 with a fastener. The opposite end of the link member 234 terminates in a lateral pivot pin 238 which is slightly smaller in diameter than the diameter of each of the through-holes 220, 222.

The embodiment illustrated in FIGS. 14-18 was created to provide a bird decoy assembly that could easily be disassembled and stored in a utility vehicle so as to not subject the bird decoy to handling damage during transportation or storage of the relatively expensive device. As shown in FIG. 17, wing removal with the described centrally mounted wing mounting bracket 210 is relatively simple. Before the wings 26, 28 are removed from the centrally mounted wing mounting bracket 210, the drive link 86 must first be removed from the drive axels 78. With reference to FIG. 16A, this is simply accomplished by loosening the thumb screw 246 so that the crank member 248 can be slid off the end of the drive axels 78 extending from the motor (not shown). The wings 26, 28 are then rotated upward (see FIG. 17) until the body 250 of the link member 234 shown in FIG. 17A, is aligned with the linear slots 240, 242 (see FIG. 15) in the centrally mounted wing mounting bracket 210 as shown in FIGS. 17 and 17A. The entire wing 26, 28, and attached link member T-bracket 234 is then slid backwards so that the linear pivot pin 238 slides out of the longitudinal through-holes 220, 222 thereby releasing each wing member 26, 28 as shown in FIG. 18 so that the wings 26, 28 be stored in a safe place for storage or during transportation, where they will not be damaged. The above procedure is followed in reverse order to attach the wings 26, 28 to the body 12 of the bird decoy 10.

As in the embodiment shown in FIGS. 1-9, the fastener that attached the bushing 236 of the link member 234 to the wing 26, 28 is sized to attach the link member 234 with a loose fit to the wings 26, 28 thereby allowing a certain amount of rotational movement or play enabling the wings 26, 28 to pivot or move about the attachment point, as the motor 72 and drive system 68 rotates the crank member 248 to create simulated wing movement for the bird decoy 10 in the up/down and fore/aft directions illustrated in FIGS. 6-9.

Accordingly, the present invention provides a mounting assembly 30 and drive system 68 combining to drive each wing 26, 28 in a manner that simulates the landing of a bird. That is, the pair of movable wings 26, 28 has a multi-axis movement, both back and forth and up and down.

The description of the invention is merely exemplary in nature and, thus, variations that do not depart from the gist of the invention are intended to be within the scope of the invention. Such variations are not to be regarded as a departure from the spirit and scope of the invention.

Claims

1. A decoy for stationary use in attracting water fowl for hunting, the decoy comprising:

a body member having a bird's head, a back and a fixed, bird's tail generally defining a central longitudinal axis;
a pair of bird wings extending outwardly from the body and mounted secure to the body proximal the longitudinal axis and adapted for up, down, forward and backward cyclic motion;
at least one wing bracket mounted proximal the central longitudinal axis on the back of the body;
a pair of pivot pins each having a longitudinal axis, each pivot pin for coupling a wing of the pair of wings to a respective wing bracket of the at least one wing bracket and wherein each longitudinal axis of each pivot in is aligned oblique with respect to the central longitudinal axis whereby each wing of the pair of wings pivots about the obliquely aligned longitudinal axis of the pivot pin of the pair of pivot pins; and
a drive system connected to the pair of wings to impart cyclic movement to each wing of the pair of wings for providing a stationary visual appearance from above of a water fowl's flapping wings while landing to attract real life water fowl toward the stationary decoy for hunting the real life water fowl and wherein the drive system comprises:
a motor located in the body member;
a power source for supplying power to the motor;
a crank member connected to the motor, the crank member having one end extending from one side of the body member and an opposite end extending from an opposite side of the body member; and
a link member having one end connected to the one end of the crank member and an opposite end connected to a wing of the pair of wings such that movement of the crank member causes movement of the at least one wing.

2. The decoy as claimed in claim 1 further comprising:

a pair of bushing members each having an inner diameter moveably mounted to one pivot pin of the pair of pivot pins and an outer diameter; and
a pair of fastening members each fastening member comprising a mounting portion and an attachment portion, the mounting portion comprising a passage having an inner diameter and a longitudinal axis, the inner diameter of the passage being greater than the outer diameter of the bushing whereby when the outer diameter of the bushing member is located in the inner diameter of the passage such that the pivot pin pivots about an axis oblique with respect to the respective longitudinal axis of the passage of the mounting portion and the pivot pin also rotates about the longitudinal axis of the pivot pin, the attachment portion of the fastening member is used to secure the fastening member to the body member.

3. The decoy as claimed in claim 1 wherein each wing of the pair of wings has a longitudinal axis; and

wherein the longitudinal axis of each wing of the pair of wings is movable in at least two directions, wherein each of the at least two directions appearing to intersect the longitudinal axis of the at least one wing when the longitudinal axis of the at least one wing is viewed in two dimensions from the side.

4. The decoy as claimed in claim 3 wherein the longitudinal axis of each wing moves along multiple axes, the combination of multi-axis movement results in the end of each longitudinal axis of each wing moving in a substantially circular manner when viewed from the end of the respective longitudinal axis.

5. The decoy as claimed in claim 1 further comprising a resilient member disposed between said one end of said crank member and said link member.

6. The decoy as claimed in claim 1 further comprising a bearing member interposed the one end of the link member and the one end of the crank member wherein the crank member is disposed within the bearing member.

7. The decoy as claimed in claim 1 wherein the opposite end of the link member is rigidly connected to the at least one wing.

8. The decoy as claimed in claim 1 wherein the drive motor further comprises a drive axle and a connector member disposed between the drive axle and the one end of the crank member.

9. The decoy as claimed in claim 8 wherein the connector member has an aperture therein sized to receive the one end of the crank member and further comprises a fastener member used to secure the one end of the crank member in the aperture of the connector member.

10. A decoy for attracting water fowl, the decoy comprising:

a body member having a bird's head, a back and a bird's tail generally defining a central longitudinal axis;
a pair of wings extending outwardly from the body and mounted secure to the body proximal the longitudinal axis and adapted for up/down cyclic motion;
a wing bracket mounted on the longitudinal axis on the back of the body, the wing bracket including a first pivot pin hole and a second pivot pin hole;
a pair of pivot pins each having a longitudinal axis, each pivot pin for coupling a wing of the pair of wings to the wing bracket whereby each wing of the pair of wings pivots about the longitudinal axis of the pivot pin of the pair of pivot pins and further pivots about an axis oblique with respect to the longitudinal axis of the pivot pin; and
a pair of bushing members each having an inner diameter moveably mounted to one pivot pin of the pair of pivot pins and an outer diameter;
a pair of fastening members each fastening member comprising a mounting portion and an attachment portion, the mounting portion comprising a passage having an inner diameter and a longitudinal axis, the inner diameter of the passage being greater than the outer diameter of the bushing whereby when the outer diameter of the bushing member is located in the inner diameter of the passage such that the pivot pin pivots about an axis oblique with respect to the respective longitudinal axis of the passage of the mounting portion and the pivot pin also rotates about the longitudinal axis of the pivot pin, the attachment portion of the fastening member is used to secure the fastening member to the body member; and
a drive system including a motor connected to the pair of wings to impart cyclic movement to each wing of the pair of wings for providing a stationary visual appearance from above of a water fowl's flapping wings while landing to attract real life water fowl toward the stationary decoy for hunting the real life water fowl.

11. The decoy of claim 10 further comprising:

a crank member connected to the motor, the crank member having one end extending from one side of the body member and an opposite end extending from an opposite side of the body member; and
a link member having one end connected to the one end of the crank member and an opposite end connected to a wing of the pair of wings such that movement of the crank member causes movement of the at least one wing.

12. A decoy for attracting water fowl, the decoy comprising:

a body member having a bird's head, a back and a bird's tail generally defining a central longitudinal axis;
a pair of wings extending outwardly from the body and mounted secure to the body proximal the longitudinal axis and adapted for up/down cyclic motion;
a wing bracket aligned on the central longitudinal axis and mounted on the back of the body, the wing bracket including a first pivot pin hole located distal of the central longitudinal axis in a first direction and a second pivot pin hole located distal of the central longitudinal axis in a second direction substantially opposite the first direction;
a pair of pivot pins each having a longitudinal axis, each pivot pin for coupling a wing of the pair of wings to a respective pivot pin hole of the wing bracket whereby each wing of the pair of wings pivots about the longitudinal axis of the respective pivot pin offset from the central longitudinal axis of the body; and
a drive system including a motor connected to the pair of wings to impart cyclic movement to each wing of the pair of wings for providing a stationary visual appearance from above of a water fowl's flapping wings while landing to attract real life water fowl toward the stationary decoy for hunting.

13. The decoy of claim 12 further comprising:

a crank member connected to the motor, the crank member having one end extending from one side of the body member and an opposite end extending from an opposite side of the body member; and
a link member having one end connected to the one end of the crank member and an opposite end connected to a wing of the pair of wings such that movement of the crank member causes movement of the at least one wing.
Referenced Cited
U.S. Patent Documents
1635892 July 1927 Kinzie
1655704 January 1928 Kauffman
1743516 January 1930 Andrews
4128958 December 12, 1978 Snow
4712749 December 15, 1987 Fox
4896448 January 30, 1990 Jackson
5163861 November 17, 1992 Van Ruymbeke
5191730 March 9, 1993 Balmer
5231780 August 3, 1993 Gazalski
6170188 January 9, 2001 Mathews
6293042 September 25, 2001 Arvanitis, Jr. et al.
6493980 December 17, 2002 Richardson et al.
6508028 January 21, 2003 Crowe
6572428 June 3, 2003 Weiser et al.
6574903 June 10, 2003 Solomon
6675522 January 13, 2004 Mathews
6698132 March 2, 2004 Brint
6715228 April 6, 2004 Price
Patent History
Patent number: 9144236
Type: Grant
Filed: May 2, 2011
Date of Patent: Sep 29, 2015
Patent Publication Number: 20110203154
Inventor: Craig A. Price (Allenton, MI)
Primary Examiner: David Parsley
Assistant Examiner: Danielle Clerkley
Application Number: 13/098,523
Classifications
Current U.S. Class: Beating Wing Sustained (244/22)
International Classification: A01M 31/06 (20060101);